神经调节
电生理学
神经科学
脑深部刺激
医学
丘脑底核
睡眠(系统调用)
生物神经网络
计算机科学
脑电图
生物医学工程
经颅多普勒
生物电子学
慢波睡眠
局部场电位
运动前神经元活动
生物粘附
神经假体
胆碱能神经元
作者
Kai Wing Kevin Tang,Benjamin Baird,William D. Moscoso-Barrera,Mengxia Yu,Mengmeng Yao,Jinmo Jeong,Ilya Pyatnitskiy,Anakaren Romero Lozano,Jiachen Wang,Ju-Chun Hsieh,Tony Chae,Daniel Song,Julieta Garcia,Rithvik Mittapalli,Adam Bush,Wynn Legon,Vincent Mysliwiec,Gregory A. Fonzo,Huiliang Wang
标识
DOI:10.1038/s41467-026-73787-6
摘要
Wearable bioelectronic interfaces capable of simultaneous neural sensing and targeted deep brain modulation remain limited by the lack of non-invasive technologies with sufficient spatial precision and mechanical stability for continuous operation. Here we report NEUSLeeP, a flexible skin-attached bioadhesive patch integrating electrophysiological sensing with transcranial focused ultrasound neuromodulation. The system incorporates a tunable concentric-ring ultrasound array, conformal hydrogel electrophysiological electrodes, and compliant interconnects within a soft substrate optimized for stable overnight operation. This integrated architecture enables spatially selective modulation and concurrent electrophysiological monitoring of deep brain structures, specifically the subthalamic nucleus during natural sleep. In a 28-participant study, NEUSLeeP demonstrated robust monitoring of sleep performance with precise-targeted neuromodulation of STN resulting in an increase in REM duration by 4.6% and reducing REM latency by 24%. This work establishes an ultrasound bioelectronic platform for non-invasive, spatiotemporally precise modulation and monitoring of deep neural circuits for neuroscience and bioelectronic medicine. ClinicalTrials.gov identifier: NCT07190287.
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